RAMSIS for Aerospace: Ergonomics at Altitude
Aircraft design is about more than performance in the air — it’s about the experience, safety, and wellbeing of passengers and crew. From cockpit to cabin, every space must be optimized for comfort, accessibility, and compliance with strict aviation standards. RAMSIS, the world’s leading ergonomic simulation tool, enables aerospace engineers and designers to integrate the human perspective into the design process early on. By simulating realistic body dimensions, postures, and movements in CAD, RAMSIS helps reduce redesign costs, meet regulatory requirements, and deliver safer, more comfortable aircraft.
Start Designing with RAMSIS
RAMSIS enables engineers, aerospace designers, interior specialists, and safety experts to collaborate seamlessly, ensuring that aircraft cockpits and cabins are functional, safe, and comfortable from the earliest stages of development. Recognized as the de-facto standard software for product ergonomics in vehicle interiors, RAMSIS is seamlessly integrated into CAD workflows, making it equally essential in the aerospace sector for creating human-centered designs.
At the heart of RAMSIS lies the realistic representation of human beings, with precise body dimensions, anatomical kinematics, and features such as an extensive shoe and hair library. These elements allow the creation of credible digital manikins that reflect the demographic and anthropometric diversity of pilots, crew, and passengers. Age groups, reference years, secular growth trends, and adjustable body dimensions can all be factored in, ensuring accuracy while accommodating realistic variations.
Why Aerospace Engineers Choose RAMSIS
The Challenge: Complex Human Factors in Aviation. Aviation pushes ergonomics to the limit, with:
Cabin Constraints | Limited space and dense seating layouts make passenger comfort and accessibility difficult to achieve. | Crew Workload | Flight attendants handle heavy trolleys and operate in narrow aisles, often over long duty hours. | Emergency Safety | Evacuation must be possible for diverse passengers within seconds, in low-light or high-stress conditions. | Strict Regulations | Compliance with FAA, EASA, and ICAO standards is mandatory across every aspect of design. |

With access to the largest global anthropometric database, RAMSIS creates realistic digital manikins that reflect the diversity of passengers and crew — accounting for differences in size, gender, age, and physical ability. Integrated directly into CAD workflows, it provides aerospace teams with evidence-based insights to make human-centered decisions.
Proven in Aerospace | RAMSIS is most widely adopted in aviation, trusted by Airbus and leading manufacturers. | Reduced Development Costs | Early virtual testing minimizes physical prototypes, shortens design cycles, and lowers program costs. | Expanding Capabilities | New posture models for helicopters and jet aircraft extend RAMSIS’ aerospace applications. | Regulatory Confidence | Validate cabin layouts against international aviation safety requirements. |
Applications in Aircraft Design
Cabin Layout and Passenger Comfort
Simulate seat spacing, mobility, and visibility in economy through luxury configurations.
Crew Workflow and Safety
Analyze movement and posture during service operations, such as handling heavy trolleys.
Safety and Emergency Planning
Evaluate evacuation space requirements and emergency exit accessibility.
Cockpit Ergonomics
Optimize reachability of controls, visibility of instruments, and workload distribution for pilots.
Advanced Ergonomic Capabilities
Automatic Posture Prediction
RAMSIS calculates realistic human postures and defines key design parameters such as H-point, foot and hand positions, and the design eye point for accurate ergonomic alignment.
Reachability Analysis
Evaluates different reach zones (comfortable, maximum, arm, and leg reach) to optimize cockpit layout and identify potential design risks.
Vision Analysis: Reflection & Glare
Simulates how illuminated displays may reflect onto cockpit windows, particularly at night, helping to prevent critical pilot distractions.
Force Analysis
Calculates the forces available to operate flight controls like the cyclic, ensuring workloads remain within safe and comfortable limits.